A mobile station in a communication system including a base station, the mobile station includes a unit for sending a signal that allocates a plurality of different Zadoff-Chu sequences to a frame to the base station.
Legal claims defining the scope of protection. Each claim is shown in both the original legal language and a plain English translation.
1. A mobile station in a communication system, the mobile station comprising: means for sending a frame to a base station, wherein a plurality of different Zadoff-Chu sequences is allocated to said frame.
A mobile station transmits data to a base station using a frame. The frame is structured such that multiple different Zadoff-Chu sequences are assigned within that single frame. This allows the mobile station to send a signal to the base station allocating a plurality of different Zadoff-Chu sequences to a frame.
2. The mobile station according to claim 1 , wherein the frame includes at least three blocks to which different Zadoff-Chu sequences are allocated.
A mobile station transmits data to a base station using a frame (wherein a plurality of different Zadoff-Chu sequences is allocated to said frame). The frame is divided into at least three distinct blocks, and each of these blocks is allocated a different Zadoff-Chu sequence.
3. The mobile station according to claim 1 , wherein the communication system comprises a plurality of cells, wherein at least one of a plurality of Zadoff-Chu sequences allocated to one of the plurality of cells is different from at least one of a plurality of Zadoff-Chu sequences allocated to another cell of the plurality of cells.
A mobile station transmits data to a base station using a frame (wherein a plurality of different Zadoff-Chu sequences is allocated to said frame). The communication network consists of multiple cells, and the Zadoff-Chu sequences used in one cell are different from those used in other cells. At least one Zadoff-Chu sequence used in one cell is unique to that cell. This differentiation between cells prevents interference.
4. A communication system comprising: a base station; and a mobile station that sends a frame to said base station, wherein a plurality of different Zadoff-Chu sequences is allocated to said frame.
A communication system consists of a base station and a mobile station. The mobile station sends data to the base station using a frame. The frame is structured such that multiple different Zadoff-Chu sequences are assigned within that single frame. The communication system utilizes a frame to send data from the mobile station to the base station by allocating a plurality of different Zadoff-Chu sequences.
5. The communication system according to claim 4 , wherein the frame includes at least three blocks to which different Zadoff-Chu sequences are allocated.
A communication system consists of a base station and a mobile station (that sends a frame to said base station, wherein a plurality of different Zadoff-Chu sequences is allocated to said frame). The frame is divided into at least three distinct blocks, and each of these blocks is allocated a different Zadoff-Chu sequence.
6. The communication system according to claim 4 , wherein the communication system comprises a plurality of cells, wherein at least one of a plurality of Zadoff-Chu sequences allocated to one of the plurality of cells is different from at least one of a plurality of Zadoff-Chu sequences allocated to another cell of the plurality of cells.
A communication system consists of a base station and a mobile station (that sends a frame to said base station, wherein a plurality of different Zadoff-Chu sequences is allocated to said frame). The communication network consists of multiple cells, and the Zadoff-Chu sequences used in one cell are different from those used in other cells. At least one Zadoff-Chu sequence used in one cell is unique to that cell. This differentiation between cells prevents interference.
7. A base station in a communication system, the base station comprising: a unit that receives a frame from a mobile station, wherein a plurality of different Zadoff-Chu sequences is allocated to said frame.
A base station receives data from a mobile station using a frame. The frame is structured such that multiple different Zadoff-Chu sequences are assigned within that single frame. The base station receives a signal that allocates a plurality of different Zadoff-Chu sequences to the received frame.
8. The base station according to claim 7 , wherein the frame includes at least three blocks to which different Zadoff-Chu sequences are allocated.
A base station receives data from a mobile station using a frame (wherein a plurality of different Zadoff-Chu sequences is allocated to said frame). The frame is divided into at least three distinct blocks, and each of these blocks is allocated a different Zadoff-Chu sequence.
9. The base station according to claim 7 , wherein the communication system comprises a plurality of cells, wherein at least one of a plurality of Zadoff-Chu sequences allocated to one of the plurality of cells is different from at least one of a plurality of Zadoff-Chu sequences allocated to another cell of the plurality of cells.
A base station receives data from a mobile station using a frame (wherein a plurality of different Zadoff-Chu sequences is allocated to said frame). The communication network consists of multiple cells, and the Zadoff-Chu sequences used in one cell are different from those used in other cells. At least one Zadoff-Chu sequence used in one cell is unique to that cell. This differentiation between cells prevents interference.
10. A method for a mobile station in a communication system, the method comprising: sending a frame to a mobile station, wherein a plurality of different Zadoff-Chu sequences is allocated to said frame.
A mobile station sends data to a base station using a frame. The frame is structured such that multiple different Zadoff-Chu sequences are assigned within that single frame. The mobile station sends a signal allocating a plurality of different Zadoff-Chu sequences to a frame.
11. The method according to claim 10 , wherein the frame includes at least three blocks to which different Zadoff-Chu sequences are allocated.
A mobile station sends data to a base station using a frame (wherein a plurality of different Zadoff-Chu sequences is allocated to said frame). The frame is divided into at least three distinct blocks, and each of these blocks is allocated a different Zadoff-Chu sequence.
12. The method according to claim 10 , wherein the communication system comprises a plurality of cells, wherein at least one of a plurality of Zadoff-Chu sequences allocated to one of the plurality of cells is different from at least one of a plurality of Zadoff-Chu sequences allocated to another cell of the plurality of cells.
A mobile station sends data to a base station using a frame (wherein a plurality of different Zadoff-Chu sequences is allocated to said frame). The communication network consists of multiple cells, and the Zadoff-Chu sequences used in one cell are different from those used in other cells. At least one Zadoff-Chu sequence used in one cell is unique to that cell. This differentiation between cells prevents interference.
13. A method for a communication system including a mobile station and a base station, the method comprising: sending a frame from said mobile station to said base station, wherein a plurality of different Zadoff-Chu sequences is allocated to said frame.
In a communication system, a mobile station sends data to a base station using a frame. The frame is structured such that multiple different Zadoff-Chu sequences are assigned within that single frame. The system transmits a signal from the mobile station to the base station by allocating a plurality of different Zadoff-Chu sequences to a frame.
14. The method according to claim 13 , wherein the frame includes at least three blocks to which different Zadoff-Chu sequences are allocated.
In a communication system, a mobile station sends data to a base station using a frame (wherein a plurality of different Zadoff-Chu sequences is allocated to said frame). The frame is divided into at least three distinct blocks, and each of these blocks is allocated a different Zadoff-Chu sequence.
15. The method according to claim 13 , wherein the communication system comprises a plurality of cells, wherein at least one of a plurality of Zadoff-Chu sequences allocated to one of the plurality of cells is different from at least one of a plurality of Zadoff-Chu sequences allocated to another cell of the plurality of cells.
In a communication system, a mobile station sends data to a base station using a frame (wherein a plurality of different Zadoff-Chu sequences is allocated to said frame). The communication network consists of multiple cells, and the Zadoff-Chu sequences used in one cell are different from those used in other cells. At least one Zadoff-Chu sequence used in one cell is unique to that cell. This differentiation between cells prevents interference.
16. The mobile station according to claim 1 , wherein a value of a parameter in the Zadoff-Chu sequence is different among the plurality of different Zadoff-Chu sequences.
A mobile station transmits data to a base station using a frame (wherein a plurality of different Zadoff-Chu sequences is allocated to said frame). The different Zadoff-Chu sequences are created by varying a specific parameter within the Zadoff-Chu sequence generation function. The value of this parameter is unique for each Zadoff-Chu sequence used in the frame.
17. The mobile station according to claim 1 , wherein said Zadoff-Chu sequence is represented by a formula: C_k(n)=exp[−(j2πk/N)(n(n+½)+qn], and k in said formula is a parameter and different among the plurality of different Zadoff-Chu sequences.
A mobile station transmits data to a base station using a frame (wherein a plurality of different Zadoff-Chu sequences is allocated to said frame). The Zadoff-Chu sequence is generated using the formula C_k(n)=exp[−(j2πk/N)(n(n+½)+qn]. The parameter 'k' in this formula is modified to generate the plurality of different Zadoff-Chu sequences within the frame.
18. The communication system according to claim 4 , wherein a value of a parameter in the Zadoff-Chu sequence is different among the plurality of different Zadoff-Chu sequences.
A communication system consists of a base station and a mobile station (that sends a frame to said base station, wherein a plurality of different Zadoff-Chu sequences is allocated to said frame). The different Zadoff-Chu sequences are created by varying a specific parameter within the Zadoff-Chu sequence generation function. The value of this parameter is unique for each Zadoff-Chu sequence used in the frame.
19. The communication system according to claim 4 , wherein said Zadoff-Chu sequence is represented by a formula: C_k(n)=exp[−(j2πk/N)(n(n+½)+qn], and k in said formula is a parameter and different among the plurality of different Zadoff-Chu sequences.
A communication system consists of a base station and a mobile station (that sends a frame to said base station, wherein a plurality of different Zadoff-Chu sequences is allocated to said frame). The Zadoff-Chu sequence is generated using the formula C_k(n)=exp[−(j2πk/N)(n(n+½)+qn]. The parameter 'k' in this formula is modified to generate the plurality of different Zadoff-Chu sequences within the frame.
20. The base station according to claim 7 , wherein a value of a parameter in the Zadoff-Chu sequence is different among the plurality of different Zadoff-Chu sequences.
A base station receives data from a mobile station using a frame (wherein a plurality of different Zadoff-Chu sequences is allocated to said frame). The different Zadoff-Chu sequences are created by varying a specific parameter within the Zadoff-Chu sequence generation function. The value of this parameter is unique for each Zadoff-Chu sequence used in the frame.
21. The base station according to claim 7 , wherein said Zadoff-Chu sequence is represented by a formula: C_k(n)=exp[−(j2πk/N)(n(n+½)+qn], and k in said formula is a parameter and different among the plurality of different Zadoff-Chu sequences.
A base station receives data from a mobile station using a frame (wherein a plurality of different Zadoff-Chu sequences is allocated to said frame). The Zadoff-Chu sequence is generated using the formula C_k(n)=exp[−(j2πk/N)(n(n+½)+qn]. The parameter 'k' in this formula is modified to generate the plurality of different Zadoff-Chu sequences within the frame.
22. The method according to claim 10 , wherein a value of a parameter in the Zadoff-Chu sequence is different among the plurality of different Zadoff-Chu sequences.
A mobile station sends data to a base station using a frame (wherein a plurality of different Zadoff-Chu sequences is allocated to said frame). The different Zadoff-Chu sequences are created by varying a specific parameter within the Zadoff-Chu sequence generation function. The value of this parameter is unique for each Zadoff-Chu sequence used in the frame.
23. The method according to claim 10 , wherein said Zadoff-Chu sequence is represented by a formula: C_k(n)=exp[−(j2πk/N)(n(n+½)+qn], and k in said formula is a parameter and different among the plurality of different Zadoff-Chu sequences.
A mobile station sends data to a base station using a frame (wherein a plurality of different Zadoff-Chu sequences is allocated to said frame). The Zadoff-Chu sequence is generated using the formula C_k(n)=exp[−(j2πk/N)(n(n+½)+qn]. The parameter 'k' in this formula is modified to generate the plurality of different Zadoff-Chu sequences within the frame.
24. The method according to claim 13 , wherein a value of a parameter in the Zadoff-Chu sequence is different among the plurality of different Zadoff-Chu sequences.
In a communication system, a mobile station sends data to a base station using a frame (wherein a plurality of different Zadoff-Chu sequences is allocated to said frame). The different Zadoff-Chu sequences are created by varying a specific parameter within the Zadoff-Chu sequence generation function. The value of this parameter is unique for each Zadoff-Chu sequence used in the frame.
25. The method according to claim 13 , wherein said Zadoff-Chu sequence is represented by a formula: C_k(n)=exp[−(j2πk/N)(n(n+½)+qn], and k in said formula is a parameter and different among the plurality of different Zadoff-Chu sequences.
In a communication system, a mobile station sends data to a base station using a frame (wherein a plurality of different Zadoff-Chu sequences is allocated to said frame). The Zadoff-Chu sequence is generated using the formula C_k(n)=exp[−(j2πk/N)(n(n+½)+qn]. The parameter 'k' in this formula is modified to generate the plurality of different Zadoff-Chu sequences within the frame.
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August 13, 2012
August 13, 2013
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